Gerardo Andrés Ramos Trujillo obtained his Bachelor of
Science degree in Chemistry from the University of Quindío in 2018 and is
presently a third-year doctoral candidate in Chemical Sciences at the same
institution. Since 2019, he has held the position of leader and director of the
Instrumental Analysis Laboratory at the University of Quindío, where he manages
analytical workflows and research support operations. In 2023, he was appointed
as a faculty member in the Department of Chemistry, a role he fulfills
concurrently with his laboratory leadership responsibilities. His research is
centered on chemoinformatics, structural design, and the organic synthesis of
potentially bioactive heterocyclic compounds. He has developed substantial
expertise in instrumental characterization techniques, including GC-MS, NMR,
FTIR, HPLC, DSC, AA, UV–Vis, and TGA, as well as computational methodologies
such as molecular docking, molecular dynamic simulations, and QSAR modeling.
His work integrates experimental and computational approaches to investigate
the structure–activity relationships and design of novel organic molecules with
potential biological activity.
Gerardo Andrés Ramos Trujillo obtained his Bachelor of
Science degree in Chemistry from the University of Quindío in 2018 and is
presently a third-year doctoral candidate in Chemical Sciences at the same
institution. Since 2019, he has held the position of leader and director of the
Instrumental Analysis Laboratory at the University of Quindío, where he manages
analytical workflows and research support operations. In 2023, he was appointed
as a faculty member in the Department of Chemistry, a role he fulfills
concurrently with his laboratory leadership responsibilities. His research is
centered on chemoinformatics, structural design, and the organic synthesis of
potentially bioactive heterocyclic compounds. He has developed substantial
expertise in instrumental characterization techniques, including GC-MS, NMR,
FTIR, HPLC, DSC, AA, UV–Vis, and TGA, as well as computational methodologies
such as molecular docking, molecular dynamic simulations, and QSAR modeling.
His work integrates experimental and computational approaches to investigate
the structure–activity relationships and design of novel organic molecules with
potential biological activity.